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18 Commits

Author SHA1 Message Date
Ollo
2fad7ebbaf Change solar factor to dd3888ba52 2024-06-25 20:53:15 +02:00
Ollo
7d6c1c3daa Disable all outputs (power safing), float number cannot be compared 2024-05-19 21:36:10 +02:00
Ollo
aa7cb31302 Activate Sensors and Pumps if Lipo is charged 2024-05-11 15:22:49 +02:00
Ollo
cd1e88e6e2 Print build date and time of firmware to upload 2024-05-09 11:41:20 +02:00
Ollo
cbde8ee11c Battery voltage below minimum should be treated as 0% 2024-04-20 13:39:16 +02:00
Ollo
dd3888ba52 Change Solar factor for Revision 0.10 2024-04-20 12:51:33 +02:00
Ollo
d2f1605b90 Sleep 2 hours on low battery 2024-04-07 12:50:12 +02:00
Ollo
cb37426fbb Deepsleep increased and Sensor-Enable for HW0.7 corrected 2024-04-01 13:03:04 +02:00
Ollo
48e5383106 Print Moisture measurement debugging in MQTT 2024-04-01 13:02:26 +02:00
Ollo
ff081a8d44 Increase deepsleep time 2024-04-01 12:10:22 +02:00
Ollo
3764183944 uniq message for ESP OTA state 2024-04-01 11:48:29 +02:00
Ollo
c85f69c545 Fixed low light information, by comparing it with minimum value 2024-03-28 20:39:43 +01:00
Ollo
7494f9de51 Different factor to read solar voltage between HW0.7 and HW0.10 2024-03-28 20:37:19 +01:00
Ollo
9c4e747b50 Added Compatibilitymode for hardware revision 0.7 2024-03-10 16:53:54 +01:00
Ollo
fb87907afc Updated example 2024-03-08 21:07:36 +01:00
Ollo
97a88ebb91 Merge master 2024-03-08 20:39:49 +01:00
Ollo
f8629586f8 Calculate water percentage below 30 percent 2024-02-24 16:21:39 +01:00
Ollo
4f7e57988b analog water measurement added 2024-02-18 15:07:06 +01:00
8 changed files with 233 additions and 149 deletions

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@ -1,16 +1,41 @@
; PlatformIO Project Configuration File
;
; Build options: build flags, source filter
; Upload options: custom upload port, speed and extra flags
; Library options: dependencies, extra library storages
; Advanced options: extra scripting
;
; Please visit documentation for the other options and examples
; https://docs.platformio.org/page/projectconf.html
[env:esp32doit-devkit-v1] [env:esp32doit-devkit-v1]
platform = espressif32 platform = espressif32@6.3.2
board = esp32doit-devkit-v1 board = esp32doit-devkit-v1
framework = arduino framework = arduino
build_flags = -DPIO_FRAMEWORK_ARDUINO_LWIP2_LOW_MEMORY build_flags = -DPIO_FRAMEWORK_ARDUINO_LWIP2_LOW_MEMORY
-DPLANT0_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT1_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT2_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT3_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT4_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT5_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DPLANT6_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DTIMED_LIGHT_PIN=CUSTOM1_PIN5
-DFLOWMETER_PIN=CUSTOM1_PIN1
-DANALOG_WATER=GPIO_NUM_34
board_build.partitions = defaultWithSmallerSpiffs.csv board_build.partitions = defaultWithSmallerSpiffs.csv
;#https://docs.espressif.com/projects/esp-idf/en/latest/esp32/api-guides/partition-tables.html
; the latest development brankitchen-lightch (convention V3.0.x) ; the latest development brankitchen-lightch (convention V3.0.x)
lib_deps = ArduinoJson@6.16.1 lib_deps = bblanchon/ArduinoJson@^6.20.1
OneWire paulstoffregen/OneWire@^2.3.6
DallasTemperature milesburton/DallasTemperature@^3.11.0
pololu/VL53L0X pololu/VL53L0X@^1.3.1
https://github.com/homieiot/homie-esp8266.git#develop https://github.com/homieiot/homie-esp8266.git#develop
; add additional parameter, like the upload port [platformio]
upload_port=/dev/ttyUSB1
extra_configs = custom_platformio.ini

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@ -17,6 +17,8 @@ if [ ! -f $firmwareFile ]; then
echo "the script $0 must be started in host/ sub directory" echo "the script $0 must be started in host/ sub directory"
exit 2 exit 2
fi fi
echo "Firmware changed:"
ls -l $firmwareFile
mosquitto_pub -h $mqttHost -t "${mqttPrefix}${homieId}/stay/alive/set" -m "1" -r mosquitto_pub -h $mqttHost -t "${mqttPrefix}${homieId}/stay/alive/set" -m "1" -r
echo "Waiting ..." echo "Waiting ..."

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@ -54,6 +54,15 @@
#define SENSOR_PLANT5 GPIO_NUM_39 /**< SENSOR_VIN */ #define SENSOR_PLANT5 GPIO_NUM_39 /**< SENSOR_VIN */
#define SENSOR_PLANT6 GPIO_NUM_36 /**< SENSOR_VP */ #define SENSOR_PLANT6 GPIO_NUM_36 /**< SENSOR_VP */
#ifdef HWREVISION07
#define OUTPUT_PUMP0 GPIO_NUM_17 /**< GPIO 17 */
#define OUTPUT_PUMP1 GPIO_NUM_5 /**< GPIO 5 */
#define OUTPUT_PUMP2 GPIO_NUM_18 /**< GPIO 18 */
#define OUTPUT_PUMP3 GPIO_NUM_19 /**< GPIO 19 */
#define OUTPUT_PUMP4 GPIO_NUM_21 /**< GPIO 21 */
#define OUTPUT_PUMP5 GPIO_NUM_22 /**< GPIO 22 */
#define OUTPUT_PUMP6 GPIO_NUM_23 /**< GPIO 23 */
#else
#define OUTPUT_PUMP0 GPIO_NUM_15 /**< GPIO 15 */ #define OUTPUT_PUMP0 GPIO_NUM_15 /**< GPIO 15 */
#define OUTPUT_PUMP1 GPIO_NUM_5 /**< GPIO 5 */ #define OUTPUT_PUMP1 GPIO_NUM_5 /**< GPIO 5 */
#define OUTPUT_PUMP2 GPIO_NUM_18 /**< GPIO 18 */ #define OUTPUT_PUMP2 GPIO_NUM_18 /**< GPIO 18 */
@ -61,18 +70,35 @@
#define OUTPUT_PUMP4 GPIO_NUM_21 /**< GPIO 21 */ #define OUTPUT_PUMP4 GPIO_NUM_21 /**< GPIO 21 */
#define OUTPUT_PUMP5 GPIO_NUM_22 /**< GPIO 22 */ #define OUTPUT_PUMP5 GPIO_NUM_22 /**< GPIO 22 */
#define OUTPUT_PUMP6 GPIO_NUM_23 /**< GPIO 23 */ #define OUTPUT_PUMP6 GPIO_NUM_23 /**< GPIO 23 */
#endif
#define OUTPUT_ENABLE_SENSOR GPIO_NUM_14 /**< GPIO 14 - Enable Sensors */
#define OUTPUT_ENABLE_PUMP GPIO_NUM_13 /**< GPIO 13 - Enable Pumps */ #define OUTPUT_ENABLE_PUMP GPIO_NUM_13 /**< GPIO 13 - Enable Pumps */
#ifdef HWREVISION07
#define OUTPUT_ENABLE_SENSOR GPIO_NUM_16 /**< GPIO 16 - Enable Sensors */
#define SENSOR_ONEWIRE GPIO_NUM_2 /** GPIO 02 - Temperatur sensor, Battery and other cool onewire stuff */
#else
#define OUTPUT_ENABLE_SENSOR GPIO_NUM_14 /**< GPIO 14 - Enable Sensors */
#define SENSOR_ONEWIRE GPIO_NUM_4 /**< GPIO 12 - Temperatur sensor, Battery and other cool onewire stuff */ #define SENSOR_ONEWIRE GPIO_NUM_4 /**< GPIO 12 - Temperatur sensor, Battery and other cool onewire stuff */
#endif
#ifdef ANALOG_WATER
#define SENSOR_TANK_ANALOG ANALOG_WATER /**< GPIO 34 - analog water sensor (GPIO_NUM_34) */
#else
#ifdef HWREVISION07
#else
#define SENSOR_TANK_SDA GPIO_NUM_17 /**< GPIO 17 - water sensor SDA */ #define SENSOR_TANK_SDA GPIO_NUM_17 /**< GPIO 17 - water sensor SDA */
#define SENSOR_TANK_SCL GPIO_NUM_16 /**< GPIO 16 - water sensor SCL */ #define SENSOR_TANK_SCL GPIO_NUM_16 /**< GPIO 16 - water sensor SCL */
#endif
#endif
#define BUTTON GPIO_NUM_0 /**< GPIO 0 - Fix button of NodeMCU */ #define BUTTON GPIO_NUM_0 /**< GPIO 0 - Fix button of NodeMCU */
#define CUSTOM1_PIN1 GPIO_NUM_34 /** direct gpio */ #define CUSTOM1_PIN1 GPIO_NUM_34 /** direct gpio */
#define CUSTOM1_PIN3 GPIO_NUM_35 /** direct gpio */ #define CUSTOM1_PIN3 GPIO_NUM_35 /** direct gpio */
#ifdef HWREVISION07
#define CUSTOM1_PIN5 GPIO_NUM_4 /** mosfet controlled */
#else
#define CUSTOM1_PIN5 GPIO_NUM_2 /** mosfet controlled */ #define CUSTOM1_PIN5 GPIO_NUM_2 /** mosfet controlled */
#endif
#define CUSTOM1_PIN7 GPIO_NUM_12 /** mosfet controlled */ #define CUSTOM1_PIN7 GPIO_NUM_12 /** mosfet controlled */
/* @} */ /* @} */
@ -85,7 +111,11 @@
#define FLOWMETER_PULSES_PER_ML 2.2 #define FLOWMETER_PULSES_PER_ML 2.2
#define FIRMWARE_FEATURE1 "Flow" #define FIRMWARE_FEATURE1 "Flow"
#else #else
#ifdef ANALOG_WATER
#define FIRMWARE_FEATURE1 "Water"
#else
#define FIRMWARE_FEATURE1 "" #define FIRMWARE_FEATURE1 ""
#endif
#endif #endif
#ifdef TIMED_LIGHT_PIN #ifdef TIMED_LIGHT_PIN
@ -94,9 +124,16 @@
#define FIRMWARE_FEATURE2 "" #define FIRMWARE_FEATURE2 ""
#endif #endif
#define FIRMWARE_BASENAME "PlantControl" #define FIRMWARE_BASENAME "PlantControl"
#define FIRMWARE_NAME FIRMWARE_BASENAME FIRMWARE_FEATURE1 FIRMWARE_FEATURE2 #define FIRMWARE_NAME FIRMWARE_BASENAME FIRMWARE_FEATURE1 FIRMWARE_FEATURE2
#define FIRMWARE_VERSION "3.01 HW0.10b" #define FIRMWARE_VERSIONNMUMBER "3.013"
#ifdef HWREVISION07
#define FIRMWARE_VERSION FIRMWARE_VERSIONNMUMBER " HW0.7"
#else
#define FIRMWARE_VERSION FIRMWARE_VERSIONNMUMBER " HW0.10b"
#endif
#define MOIST_SENSOR_MAX_FRQ 5200 // 60kHz (500Hz margin) #define MOIST_SENSOR_MAX_FRQ 5200 // 60kHz (500Hz margin)
#define MOIST_SENSOR_MIN_FRQ 500 // 0.5kHz (500Hz margin) #define MOIST_SENSOR_MIN_FRQ 500 // 0.5kHz (500Hz margin)
@ -104,21 +141,29 @@
#define ANALOG_SENSOR_MAX_MV 1300 //successive approximation of good range #define ANALOG_SENSOR_MAX_MV 1300 //successive approximation of good range
#define ANALOG_SENSOR_MIN_MV 100 //successive approximation of good range #define ANALOG_SENSOR_MIN_MV 100 //successive approximation of good range
#define SOLAR_VOLT_FACTOR 11 #ifdef HWREVISION07
#define SOLAR_VOLT_FACTOR (4.0306f) /**< 100k and 33k voltage dividor */
#else
#define SOLAR_VOLT_FACTOR (11.0f) /**< Configuratiion before dd3888ba52f51338788820a933c0a6f4bee78ed5 */
#endif
#define BATTSENSOR_INDEX_SOLAR 0 #define BATTSENSOR_INDEX_SOLAR 0
#define BATTSENSOR_INDEX_BATTERY 1 #define BATTSENSOR_INDEX_BATTERY 1
#define MQTT_TIMEOUT (1000 * 60) /**< After 10 seconds, MQTT is expected to be connected */ #define MQTT_TIMEOUT (1000 * 60) /**< After 10 seconds, MQTT is expected to be connected */
#define ESP_STALE_TIMEOUT (MQTT_TIMEOUT+(700*1000)) #define ESP_STALE_TIMEOUT (MQTT_TIMEOUT+(700*1000))
#define ESP_ADC_MAX 4095
#define MAX_PLANTS 7 #define MAX_PLANTS 7
#define SOLAR_CHARGE_MIN_VOLTAGE 7 /**< Sun is rising (morning detected) */ #define SOLAR_CHARGE_MIN_VOLTAGE 7 /**< Sun is rising (morning detected) */
#define SOLAR_CHARGE_MAX_VOLTAGE 9 /**< Sun is shining (noon) */ #define SOLAR_CHARGE_MAX_VOLTAGE 9 /**< Sun is shining (noon) */
#define SOLAR_MAX_VOLTAGE_POSSIBLE 100 /**< higher values are treated as not connected sensor */ #define SOLAR_MAX_VOLTAGE_POSSIBLE 100 /**< higher values are treated as not connected sensor */
#define VOLT_MAX_BATT 4.2f #define VOLT_MAX_BATT 4.2f
#define VOLT_MIN_BATT 3.0f /**< Minimum battery voltage for normal operation */ #define VOLT_SENSORS_BATT 3.6f /**< Minimum battery voltage for sensor (and pump) usage */
#define LOWVOLT_SLEEP_FACTOR 3 /**< Factor for nightsleep delay, if the battery drops below minimum (@see VOLT_MIN_BATT) */ #define VOLT_MIN_BATT 3.4f /**< Minimum battery voltage for normal operation */
#define LOWVOLT_SLEEP_MINIMUM 1800 /**< At low voltage sleep at least for 30 minutes */ #define LOWVOLT_SLEEP_FACTOR 6 /**< Factor for nightsleep delay, if the battery drops below minimum (@see VOLT_MIN_BATT) */
#define LOWVOLT_SLEEP_MINIMUM 7200 /**< At low voltage sleep at least for 120 minutes (two hours) */
#define WATER_LEVEL_MINIMUM 500 /**< Minimum Analog value (1023 is the maximum)*/
#define MAX_CONFIG_SETTING_ITEMS 100 /**< Parameter, that can be configured in Homie */ #define MAX_CONFIG_SETTING_ITEMS 100 /**< Parameter, that can be configured in Homie */
#define MAX_JSON_CONFIG_FILE_SIZE_CUSTOM 2500 #define MAX_JSON_CONFIG_FILE_SIZE_CUSTOM 2500

View File

@ -75,9 +75,6 @@ HomieNode stayAlive("stay", "alive", "alive"); /**< Necessary for Mqtt Active C
HomieSetting<long> deepSleepTime("sleep", "time in seconds to sleep"); HomieSetting<long> deepSleepTime("sleep", "time in seconds to sleep");
HomieSetting<long> deepSleepNightTime("nightsleep", "time in seconds to sleep (0 uses same setting: deepsleep at night, too)"); HomieSetting<long> deepSleepNightTime("nightsleep", "time in seconds to sleep (0 uses same setting: deepsleep at night, too)");
HomieSetting<long> pumpIneffectiveWarning("pumpConsecutiveWarn", "if the pump was triggered this amount directly after each cooldown, without resolving dryness, warn"); HomieSetting<long> pumpIneffectiveWarning("pumpConsecutiveWarn", "if the pump was triggered this amount directly after each cooldown, without resolving dryness, warn");
HomieSetting<long> waterLevelMax("tankmax", "distance (mm) at maximum water level");
HomieSetting<long> waterLevelMin("tankmin", "distance (mm) at minimum water level (pumps still covered)");
HomieSetting<long> waterLevelWarn("tankwarn", "warn (mm) if below this water level %");
HomieSetting<long> waterLevelVol("tankVolume", "(ml) between minimum and maximum"); HomieSetting<long> waterLevelVol("tankVolume", "(ml) between minimum and maximum");
HomieSetting<const char *> lipoSensorAddr("lipoDSAddr", "1wire address for lipo temperature sensor"); HomieSetting<const char *> lipoSensorAddr("lipoDSAddr", "1wire address for lipo temperature sensor");
HomieSetting<const char *> waterSensorAddr("tankDSAddr", "1wire address for water temperature sensor"); HomieSetting<const char *> waterSensorAddr("tankDSAddr", "1wire address for water temperature sensor");

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@ -46,5 +46,10 @@
#define LOG_SLEEP_CYCLE 102 #define LOG_SLEEP_CYCLE 102
#define LOG_MISSING_PUMP -4 #define LOG_MISSING_PUMP -4
#define LOG_BOOT_ERROR_DETECTION 10000 #define LOG_BOOT_ERROR_DETECTION 10000
#define LOG_BOOT_ERROR_IMG_UNDEFINED (LOG_BOOT_ERROR_DETECTION + 1)
#define LOG_BOOT_ERROR_IMG_NEW (LOG_BOOT_ERROR_DETECTION + 2)
#define LOG_BOOT_ERROR_IMG_INVALID (LOG_BOOT_ERROR_DETECTION + 3)
#define LOG_BOOT_ERROR_IMG_VALID (LOG_BOOT_ERROR_DETECTION + 4)
#define LOG_BOOT_ERROR_IMG_PENDING_VERIFY (LOG_BOOT_ERROR_DETECTION + 5)
#define LOG_SOLAR_CHARGER_MISSING 300 #define LOG_SOLAR_CHARGER_MISSING 300
#endif #endif

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@ -22,6 +22,9 @@ build_flags = -DPIO_FRAMEWORK_ARDUINO_LWIP2_LOW_MEMORY
-DPLANT6_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE -DPLANT6_SENSORTYPE=FREQUENCY_MOD_RESISTANCE_PROBE
-DTIMED_LIGHT_PIN=CUSTOM1_PIN5 -DTIMED_LIGHT_PIN=CUSTOM1_PIN5
-DFLOWMETER_PIN=CUSTOM1_PIN1 -DFLOWMETER_PIN=CUSTOM1_PIN1
-DANALOG_WATER=GPIO_NUM_34
; Optional: Compatibilitymode for hardware revision 0.7
;-DHWREVISION07=1
board_build.partitions = defaultWithSmallerSpiffs.csv board_build.partitions = defaultWithSmallerSpiffs.csv

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@ -54,8 +54,10 @@ void Plant::init(void)
{ return ((candidate >= 0) && (candidate <= 100)); }); { return ((candidate >= 0) && (candidate <= 100)); });
/* Initialize Hardware */ /* Initialize Hardware */
pinMode(this->mPinPump, OUTPUT);
digitalWrite(this->mPinPump, LOW);
ledcSetup(this->mPlantId, PWM_FREQ, PWM_BITS); ledcSetup(this->mPlantId, PWM_FREQ, PWM_BITS);
ledcAttachPin(mPinPump, this->mPlantId); ledcAttachPin(this->mPinPump, this->mPlantId);
ledcWrite(this->mPlantId, 0); ledcWrite(this->mPlantId, 0);
pinMode(this->mPinSensor, INPUT); pinMode(this->mPinSensor, INPUT);
} }

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@ -51,7 +51,10 @@ extern "C" bool verifyRollbackLater(){
* DEFINES * DEFINES
******************************************************************************/ ******************************************************************************/
#define AMOUNT_SENOR_QUERYS 8 #define AMOUNT_SENOR_QUERYS 8
#ifdef ANALOG_WATER
#else
#define MAX_TANK_DEPTH 5000 #define MAX_TANK_DEPTH 5000
#endif
#define REBOOT_LOOP_DETECTION_ERROR 5 #define REBOOT_LOOP_DETECTION_ERROR 5
/****************************************************************************** /******************************************************************************
@ -77,9 +80,9 @@ RTC_DATA_ATTR long consecutiveWateringPlant[MAX_PLANTS] = {0};
/****************************************************************************** /******************************************************************************
* LOCAL VARIABLES * LOCAL VARIABLES
******************************************************************************/ ******************************************************************************/
bool volatile mDownloadMode = false; /**< Controller must not sleep */ bool volatile vmDownloadMode = false; /**< Controller must not sleep */
bool volatile mSensorsRead = false; /**< Sensors are read without Wifi or MQTT */ bool volatile vmSensorsRead = false; /**< Sensors are read without Wifi or MQTT */
int volatile pumpToRun = -1; /** pump to run at the end of the cycle */ int volatile vmPumpToRun = -1; /** pump to run at the end of the cycle */
int volatile selfTestPumpRun = -1; /** pump to run at the end of the cycle */ int volatile selfTestPumpRun = -1; /** pump to run at the end of the cycle */
bool mConfigured = false; bool mConfigured = false;
@ -148,23 +151,23 @@ void finsihedCycleSucessfully()
esp_ota_img_states_t ota_state; esp_ota_img_states_t ota_state;
if (esp_ota_get_state_partition(running, &ota_state) == ESP_OK) if (esp_ota_get_state_partition(running, &ota_state) == ESP_OK)
{ {
log(LOG_LEVEL_INFO, "Get State Partition was Successfull", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "Get State Partition was Successfull", LOG_BOOT_ERROR_DETECTION);
if(ota_state == ESP_OTA_IMG_UNDEFINED){ if(ota_state == ESP_OTA_IMG_UNDEFINED){
log(LOG_LEVEL_INFO, "ESP_OTA_IMG_UNDEFINED should not happen with rollback", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "ESP_OTA_IMG_UNDEFINED should not happen with rollback", LOG_BOOT_ERROR_IMG_UNDEFINED);
} }
if(ota_state == ESP_OTA_IMG_NEW){ if(ota_state == ESP_OTA_IMG_NEW){
log(LOG_LEVEL_INFO, "ESP_OTA_IMG_NEW", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "ESP_OTA_IMG_NEW", LOG_BOOT_ERROR_IMG_NEW);
} }
if(ota_state == ESP_OTA_IMG_INVALID){ if(ota_state == ESP_OTA_IMG_INVALID){
log(LOG_LEVEL_INFO, "ESP_OTA_IMG_INVALID", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "ESP_OTA_IMG_INVALID", LOG_BOOT_ERROR_IMG_INVALID);
} }
if(ota_state == ESP_OTA_IMG_VALID){ if(ota_state == ESP_OTA_IMG_VALID){
log(LOG_LEVEL_INFO, "ESP_OTA_IMG_VALID", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "ESP_OTA_IMG_VALID", LOG_BOOT_ERROR_IMG_VALID);
} }
if (ota_state == ESP_OTA_IMG_PENDING_VERIFY) if (ota_state == ESP_OTA_IMG_PENDING_VERIFY)
{ {
log(LOG_LEVEL_INFO, "ESP_OTA_IMG_PENDING_VERIFY Diagnostics completed successfully! Marking as valid", LOG_BOOT_ERROR_DETECTION); log(LOG_LEVEL_DEBUG, "ESP_OTA_IMG_PENDING_VERIFY Diagnostics completed successfully! Marking as valid", LOG_BOOT_ERROR_IMG_PENDING_VERIFY);
esp_ota_mark_app_valid_cancel_rollback(); esp_ota_mark_app_valid_cancel_rollback();
} }
} }
@ -172,11 +175,11 @@ void finsihedCycleSucessfully()
void espDeepSleep(bool afterPump = false) void espDeepSleep(bool afterPump = false)
{ {
if (mDownloadMode) /* download mode or normal operation should restore device status*/
finsihedCycleSucessfully();
if (vmDownloadMode)
{ {
log(LOG_LEVEL_DEBUG, "abort deepsleep, DownloadMode active", LOG_DEBUG_CODE); log(LOG_LEVEL_DEBUG, "abort deepsleep, DownloadMode active", LOG_DEBUG_CODE);
// if we manage to get to the download mode, the device can be restored
finsihedCycleSucessfully();
return; return;
} }
if (aliveWasRead()) if (aliveWasRead())
@ -201,7 +204,7 @@ void espDeepSleep(bool afterPump = false)
esp_sleep_pd_config(ESP_PD_DOMAIN_RTC_PERIPH, ESP_PD_OPTION_ON); esp_sleep_pd_config(ESP_PD_DOMAIN_RTC_PERIPH, ESP_PD_OPTION_ON);
long secondsToSleep = -1; unsigned long secondsToSleep = -1;
if (afterPump) if (afterPump)
{ {
@ -210,9 +213,8 @@ void espDeepSleep(bool afterPump = false)
} }
else else
{ {
if (mBatteryVoltage < VOLT_MIN_BATT) if ( ((int) (mBatteryVoltage * 100)) < ((int) (VOLT_MIN_BATT * 100)) )
{ {
log(LOG_LEVEL_INFO, String(String(mBatteryVoltage) + "V! Almost empty -> deepSleepNight " + String(LOWVOLT_SLEEP_FACTOR)) + " times", LOG_SLEEP_LOWVOLTAGE);
/* use the largest sleeping duration */ /* use the largest sleeping duration */
if (deepSleepNightTime.get() > deepSleepTime.get()) { if (deepSleepNightTime.get() > deepSleepTime.get()) {
secondsToSleep = (deepSleepNightTime.get() * LOWVOLT_SLEEP_FACTOR); secondsToSleep = (deepSleepNightTime.get() * LOWVOLT_SLEEP_FACTOR);
@ -223,6 +225,7 @@ void espDeepSleep(bool afterPump = false)
if (secondsToSleep < LOWVOLT_SLEEP_MINIMUM) { if (secondsToSleep < LOWVOLT_SLEEP_MINIMUM) {
secondsToSleep = LOWVOLT_SLEEP_MINIMUM; secondsToSleep = LOWVOLT_SLEEP_MINIMUM;
} }
log(LOG_LEVEL_INFO, String(String(mBatteryVoltage) + "V! Almost empty -> deepSleepNight " + String(LOWVOLT_SLEEP_FACTOR)) + " times (" + secondsToSleep + "s)", LOG_SLEEP_LOWVOLTAGE);
} }
else if (mSolarVoltage < SOLAR_CHARGE_MIN_VOLTAGE) else if (mSolarVoltage < SOLAR_CHARGE_MIN_VOLTAGE)
{ {
@ -236,12 +239,14 @@ void espDeepSleep(bool afterPump = false)
} }
} }
finsihedCycleSucessfully(); #define SECOND2USECOND_FACTOR (1000U * 1000U)
/* sleep always at least one second */ /* sleep always at least one second */
if (secondsToSleep < 0) { if (secondsToSleep <= 0) {
secondsToSleep = 1; secondsToSleep = (unsigned long) (UINT64_MAX / SECOND2USECOND_FACTOR);
} }
esp_sleep_enable_timer_wakeup((secondsToSleep * 1000U * 1000U)); esp_sleep_enable_timer_wakeup((secondsToSleep * SECOND2USECOND_FACTOR));
#undef SECOND2USECOND_FACTOR
if (aliveWasRead()) if (aliveWasRead())
{ {
delay(1000); delay(1000);
@ -354,68 +359,35 @@ void readPowerSwitchedSensors()
Plant plant = mPlants[i]; Plant plant = mPlants[i];
switch (plant.getSensorMode()) switch (plant.getSensorMode())
{ {
case FREQUENCY_MOD_RESISTANCE_PROBE: { case FREQUENCY_MOD_RESISTANCE_PROBE:
Serial << "Plant " << i << " measurement: " << mPlants[i].getCurrentMoistureRaw() << " hz " << mPlants[i].getCurrentMoisturePCT() << "%" << endl; Serial << "Plant " << i << " measurement: " << mPlants[i].getCurrentMoistureRaw() << " hz " << mPlants[i].getCurrentMoisturePCT() << "%" << endl;
break; break;
} case ANALOG_RESISTANCE_PROBE :
case ANALOG_RESISTANCE_PROBE : {
Serial << "Plant " << i << " measurement: " << mPlants[i].getCurrentMoistureRaw() << " mV " << mPlants[i].getCurrentMoisturePCT() << "%" << endl; Serial << "Plant " << i << " measurement: " << mPlants[i].getCurrentMoistureRaw() << " mV " << mPlants[i].getCurrentMoisturePCT() << "%" << endl;
break; break;
} default:
case NONE : { case NONE:
}
}
}
Wire.begin(SENSOR_TANK_SDA, SENSOR_TANK_SCL);
// Source: https://www.st.com/resource/en/datasheet/vl53l0x.pdf
tankSensor.setAddress(0x52);
tankSensor.setBus(&Wire);
delay(50);
Serial << "Distance sensor init" << endl;
long start = millis();
bool distanceReady = false;
while ((start + WATERSENSOR_TIMEOUT) > millis())
{
if (tankSensor.init())
{
distanceReady = true;
break; break;
} }
else
{
delay(200);
} }
}
if (distanceReady)
{
waterRawSensor.clear();
tankSensor.setSignalRateLimit(0.1);
// increase laser pulse periods (defaults are 14 and 10 PCLKs)
tankSensor.setVcselPulsePeriod(VL53L0X::VcselPeriodPreRange, 18);
tankSensor.setVcselPulsePeriod(VL53L0X::VcselPeriodFinalRange, 14);
tankSensor.setMeasurementTimingBudget(200000);
Serial << "Distance sensor measuring" << endl;
for (int readCnt = 0; readCnt < WATERSENSOR_CYCLE; readCnt++)
#ifdef ANALOG_WATER
Serial << "Analog water measurement " << WATERSENSOR_CYCLE << " cycles.." << endl;
Serial.flush();
/* Read analog Water sensor*/
for(int i=0; i < WATERSENSOR_CYCLE; i++)
{ {
if (!tankSensor.timeoutOccurred()) int value = analogRead(SENSOR_TANK_ANALOG);
{ Serial << "Round " << i << " measurement: " << value << " mV " << endl;
uint16_t distance = tankSensor.readRangeSingleMillimeters(); waterRawSensor.add(value);
if (distance < MAX_TANK_DEPTH) delay(5);
{
waterRawSensor.add(distance);
}
}
delay(50);
}
Serial << "Distance sensor " << waterRawSensor.getMedian() << " mm" << endl;
}
else
{
log(LOG_LEVEL_WARN, LOG_TANKSENSOR_FAIL_DETECT, LOG_TANKSENSOR_FAIL_DETECT_CODE);
} }
Serial << "Analog water measurement done" << endl;
#else
Serial << "Analog water measurement deactivated" << endl;
#endif
Serial.flush();
/* deactivate the sensors */ /* deactivate the sensors */
digitalWrite(OUTPUT_ENABLE_SENSOR, LOW); digitalWrite(OUTPUT_ENABLE_SENSOR, LOW);
@ -431,12 +403,12 @@ void onHomieEvent(const HomieEvent &event)
case HomieEventType::SENDING_STATISTICS: case HomieEventType::SENDING_STATISTICS:
break; break;
case HomieEventType::MQTT_READY: case HomieEventType::MQTT_READY:
if (mSensorsRead) if (vmSensorsRead)
{ {
Serial.printf("Timeout occured... too late!\r\n"); Serial.printf("Timeout occured... too late!\r\n");
return; return;
} }
mSensorsRead = true; // MQTT is working, deactivate timeout logic vmSensorsRead = true; // MQTT is working, deactivate timeout logic
configTime(UTC_OFFSET_DE, UTF_OFFSET_DE_DST, ntpServer.get()); configTime(UTC_OFFSET_DE, UTF_OFFSET_DE_DST, ntpServer.get());
startMQTTRoundtripTest(); startMQTTRoundtripTest();
@ -447,7 +419,7 @@ void onHomieEvent(const HomieEvent &event)
mPlants[i].deactivatePump(); mPlants[i].deactivatePump();
} }
otaRunning = true; otaRunning = true;
mDownloadMode = true; vmDownloadMode = true;
break; break;
case HomieEventType::OTA_SUCCESSFUL: case HomieEventType::OTA_SUCCESSFUL:
digitalWrite(OUTPUT_ENABLE_SENSOR, LOW); digitalWrite(OUTPUT_ENABLE_SENSOR, LOW);
@ -464,12 +436,21 @@ int determineNextPump(bool isLowLight)
int pumpToUse = -1; int pumpToUse = -1;
for (int i = 0; i < MAX_PLANTS; i++) for (int i = 0; i < MAX_PLANTS; i++)
{ {
Plant plant = mPlants[i];
switch (plant.getSensorMode())
{
case FREQUENCY_MOD_RESISTANCE_PROBE:
log(LOG_LEVEL_DEBUG,
String("Plant " + String(i) + " measurement: " + String(plant.getCurrentMoistureRaw()) + " hz " + String(plant.getCurrentMoisturePCT()) + "%"),
LOG_DEBUG_CODE);
break;
}
bool wateralarm = consecutiveWateringPlant[i] >= pumpIneffectiveWarning.get(); bool wateralarm = consecutiveWateringPlant[i] >= pumpIneffectiveWarning.get();
if (wateralarm) if (wateralarm)
{ {
log(LOG_LEVEL_ERROR, String(String(i) + " Plant still dry after " + String(consecutiveWateringPlant[i]) + " watering attempts"), LOG_PUMP_INEFFECTIVE); log(LOG_LEVEL_ERROR, String(String(i) + " Plant still dry after " + String(consecutiveWateringPlant[i]) + " watering attempts"), LOG_PUMP_INEFFECTIVE);
} }
Plant plant = mPlants[i];
if (!plant.isPumpTriggerActive()) if (!plant.isPumpTriggerActive())
{ {
plant.publishState(PLANTSTATE_NUM_DEACTIVATED, PLANTSTATE_STR_DEACTIVATED); plant.publishState(PLANTSTATE_NUM_DEACTIVATED, PLANTSTATE_STR_DEACTIVATED);
@ -530,7 +511,7 @@ int determineNextPump(bool isLowLight)
} }
else else
{ {
if (mDownloadMode) if (vmDownloadMode)
{ {
plant.publishState(PLANTSTATE_NUM_ACTIVE_SUPESSED, PLANTSTATE_STR_ACTIVE_SUPESSED); plant.publishState(PLANTSTATE_NUM_ACTIVE_SUPESSED, PLANTSTATE_STR_ACTIVE_SUPESSED);
} }
@ -590,15 +571,15 @@ bool aliveHandler(const HomieRange &range, const String &value)
if (value.equals("ON") || value.equals("On") || value.equals("1")) if (value.equals("ON") || value.equals("On") || value.equals("1"))
{ {
mDownloadMode = true; vmDownloadMode = true;
} }
else else
{ {
if (mDownloadMode) if (vmDownloadMode)
{ {
esp_restart(); esp_restart();
} }
mDownloadMode = false; vmDownloadMode = false;
} }
return true; return true;
@ -675,11 +656,11 @@ void initPumpLogic()
pcnt_counter_resume(unit); pcnt_counter_resume(unit);
#endif #endif
pumpStartTime = millis(); pumpStartTime = millis();
pumpTarget = millis() + (mPlants[pumpToRun].getPumpDuration() * 1000); pumpTarget = millis() + (mPlants[vmPumpToRun].getPumpDuration() * 1000);
#ifdef FLOWMETER_PIN #ifdef FLOWMETER_PIN
log(LOG_LEVEL_INFO, "Starting pump " + String(pumpToRun) + " for " + String(mPlants[pumpToRun].getPumpDuration()) + "s or " + String(pumpTargetMl) + "ml", LOG_PUMP_STARTED_CODE); log(LOG_LEVEL_INFO, "Starting pump " + String(pumpToRun) + " for " + String(mPlants[pumpToRun].getPumpDuration()) + "s or " + String(pumpTargetMl) + "ml", LOG_PUMP_STARTED_CODE);
#else #else
log(LOG_LEVEL_INFO, "Starting pump " + String(pumpToRun) + " for " + String(mPlants[pumpToRun].getPumpDuration()) + "s", LOG_PUMP_STARTED_CODE); log(LOG_LEVEL_INFO, "Starting pump " + String(vmPumpToRun) + " for " + String(mPlants[vmPumpToRun].getPumpDuration()) + "s", LOG_PUMP_STARTED_CODE);
#endif #endif
@ -689,7 +670,7 @@ void initPumpLogic()
delay(100); delay(100);
WRITE_PERI_REG(RTC_CNTL_BROWN_OUT_REG, 1); WRITE_PERI_REG(RTC_CNTL_BROWN_OUT_REG, 1);
mPlants[pumpToRun].activatePump(); mPlants[vmPumpToRun].activatePump();
} }
void pumpActiveLoop() void pumpActiveLoop()
@ -700,7 +681,7 @@ void pumpActiveLoop()
{ {
initPumpLogic(); initPumpLogic();
pumpStarted = true; pumpStarted = true;
rtcLastWateringPlant[pumpToRun] = getCurrentTime(); rtcLastWateringPlant[vmPumpToRun] = getCurrentTime();
} }
bool mqttUpdateTick = false; bool mqttUpdateTick = false;
@ -742,12 +723,12 @@ void pumpActiveLoop()
if (millis() > pumpTarget) if (millis() > pumpTarget)
{ {
mPlants[pumpToRun].setProperty("watertime").send(String(duration)); mPlants[vmPumpToRun].setProperty("watertime").send(String(duration));
targetReached = true; targetReached = true;
} }
else if (mqttUpdateTick) else if (mqttUpdateTick)
{ {
mPlants[pumpToRun].setProperty("watertime").send(String(duration)); mPlants[vmPumpToRun].setProperty("watertime").send(String(duration));
} }
if (targetReached) if (targetReached)
@ -755,11 +736,11 @@ void pumpActiveLoop()
// disable all // disable all
digitalWrite(OUTPUT_ENABLE_PUMP, LOW); digitalWrite(OUTPUT_ENABLE_PUMP, LOW);
mPlants[pumpToRun].deactivatePump(); mPlants[vmPumpToRun].deactivatePump();
// disable loop, to prevent multi processing // disable loop, to prevent multi processing
pumpStarted = false; pumpStarted = false;
// if runtime is larger than cooldown, else it would run continously // if runtime is larger than cooldown, else it would run continously
rtcLastWateringPlant[pumpToRun] = getCurrentTime(); rtcLastWateringPlant[vmPumpToRun] = getCurrentTime();
espDeepSleep(true); espDeepSleep(true);
} }
} }
@ -791,6 +772,11 @@ void safeSetup()
digitalWrite(OUTPUT_ENABLE_PUMP, LOW); digitalWrite(OUTPUT_ENABLE_PUMP, LOW);
pinMode(OUTPUT_ENABLE_SENSOR, OUTPUT); pinMode(OUTPUT_ENABLE_SENSOR, OUTPUT);
digitalWrite(OUTPUT_ENABLE_SENSOR, LOW);
#ifdef ANALOG_WATER
pinMode(SENSOR_TANK_ANALOG, INPUT);
#endif
static_assert(HomieInternals::MAX_CONFIG_SETTING_SIZE >= MAX_CONFIG_SETTING_ITEMS, "Limits.hpp not adjusted MAX_CONFIG_SETTING_ITEMS"); static_assert(HomieInternals::MAX_CONFIG_SETTING_SIZE >= MAX_CONFIG_SETTING_ITEMS, "Limits.hpp not adjusted MAX_CONFIG_SETTING_ITEMS");
if (HomieInternals::MAX_CONFIG_SETTING_SIZE < MAX_CONFIG_SETTING_ITEMS) if (HomieInternals::MAX_CONFIG_SETTING_SIZE < MAX_CONFIG_SETTING_ITEMS)
@ -819,9 +805,6 @@ void safeSetup()
deepSleepNightTime.setDefaultValue(600); deepSleepNightTime.setDefaultValue(600);
ntpServer.setDefaultValue("pool.ntp.org"); ntpServer.setDefaultValue("pool.ntp.org");
/* waterLevelMax 1000 */ /* 100cm in mm */
waterLevelMin.setDefaultValue(50); /* 5cm in mm */
waterLevelWarn.setDefaultValue(500); /* 50cm in mm */
waterLevelVol.setDefaultValue(5000); /* 5l in ml */ waterLevelVol.setDefaultValue(5000); /* 5l in ml */
lipoSensorAddr.setDefaultValue(""); lipoSensorAddr.setDefaultValue("");
waterSensorAddr.setDefaultValue(""); waterSensorAddr.setDefaultValue("");
@ -848,10 +831,6 @@ void safeSetup()
{ {
mPlants[i].initSensors(); mPlants[i].initSensors();
} }
readPowerSwitchedSensors();
Serial << "Reading Homie Config..." << endl;
Homie.setup();
/************************* Start One-Wire bus ***************/ /************************* Start One-Wire bus ***************/
int tempInitStartTime = millis(); int tempInitStartTime = millis();
@ -866,6 +845,19 @@ void safeSetup()
delay(50); delay(50);
} }
readOneWireSensors();
mBatteryVoltage = battery.getVoltage(BATTSENSOR_INDEX_BATTERY);
if ( ((int) (mBatteryVoltage * 100)) >= ((int) (VOLT_SENSORS_BATT * 100)) )
{
/* read all sensors with additional power source */
readPowerSwitchedSensors();
}
/* Start Homie and Wifi */
Serial << "Reading Homie Config..." << endl;
Homie.setup();
Serial << "DS18S20 count: " << sensorCount << " found in " << (millis() - tempInitStartTime) << " ms" << endl; Serial << "DS18S20 count: " << sensorCount << " found in " << (millis() - tempInitStartTime) << " ms" << endl;
Serial.flush(); Serial.flush();
/* Measure temperature TODO idea: move this into setup */ /* Measure temperature TODO idea: move this into setup */
@ -947,7 +939,7 @@ void safeSetup()
delay(100); delay(100);
WRITE_PERI_REG(RTC_CNTL_BROWN_OUT_REG, 1); WRITE_PERI_REG(RTC_CNTL_BROWN_OUT_REG, 1);
Serial.println("Initial Setup. Start Accesspoint..."); Serial.println("Initial Setup. Start Accesspoint...");
mDownloadMode = true; vmDownloadMode = true;
} }
stayAlive.advertise("alive").setName("Alive").setDatatype(NUMBER_TYPE).settable(aliveHandler); stayAlive.advertise("alive").setName("Alive").setDatatype(NUMBER_TYPE).settable(aliveHandler);
setupFinishedTimestamp = millis(); setupFinishedTimestamp = millis();
@ -983,7 +975,7 @@ void selfTest()
if (selfTestPumpRun >= 0 && selfTestPumpRun < MAX_PLANTS) if (selfTestPumpRun >= 0 && selfTestPumpRun < MAX_PLANTS)
{ {
Serial << "self test mode pump deactivate " << pumpToRun << endl; Serial << "self test mode pump deactivate " << vmPumpToRun << endl;
Serial.flush(); Serial.flush();
mPlants[selfTestPumpRun].deactivatePump(); mPlants[selfTestPumpRun].deactivatePump();
} }
@ -1015,7 +1007,7 @@ void loop()
{ {
Homie.loop(); Homie.loop();
/* Toggel Senor LED to visualize mode 3 */ /* Toggel Senor LED to visualize mode 3 */
if (mDownloadMode) if (vmDownloadMode)
{ {
if (nextBlink < millis()) if (nextBlink < millis())
{ {
@ -1040,9 +1032,9 @@ void loop()
else else
{ {
unsigned long timeSinceSetup = millis() - setupFinishedTimestamp; unsigned long timeSinceSetup = millis() - setupFinishedTimestamp;
if ((timeSinceSetup > MQTT_TIMEOUT) && (!mSensorsRead)) if ((timeSinceSetup > MQTT_TIMEOUT) && (!vmSensorsRead))
{ {
mSensorsRead = true; vmSensorsRead = true;
/* Disable Wifi and put modem into sleep mode */ /* Disable Wifi and put modem into sleep mode */
WiFi.mode(WIFI_OFF); WiFi.mode(WIFI_OFF);
Serial << "Wifi mode set to " << WIFI_OFF << " mqqt was no reached within " << timeSinceSetup << "ms , fallback to offline mode " << endl; Serial << "Wifi mode set to " << WIFI_OFF << " mqqt was no reached within " << timeSinceSetup << "ms , fallback to offline mode " << endl;
@ -1052,14 +1044,14 @@ void loop()
} }
/** Timeout always stopping the ESP -> no endless power consumption */ /** Timeout always stopping the ESP -> no endless power consumption */
if (millis() > ESP_STALE_TIMEOUT && !mDownloadMode) if (millis() > ESP_STALE_TIMEOUT && !vmDownloadMode)
{ {
Serial << (millis() / 1000) << "not terminated watchdog reset" << endl; Serial << (millis() / 1000) << "not terminated watchdog reset" << endl;
Serial.flush(); Serial.flush();
esp_restart(); esp_restart();
} }
if (pumpToRun != -1) if (vmPumpToRun != -1)
{ {
pumpActiveLoop(); pumpActiveLoop();
} }
@ -1082,9 +1074,8 @@ void plantcontrol()
readOneWireSensors(); readOneWireSensors();
Serial << "W : " << waterRawSensor.getAverage() << " mm (" << String(waterLevelMax.get() - waterRawSensor.getAverage()) << " mm left)" << endl; Serial << "W : " << waterRawSensor.getAverage() << " mm " << endl;
mBatteryVoltage = battery.getVoltage(BATTSENSOR_INDEX_BATTERY);
float chipTemp = battery.getTemperature(); float chipTemp = battery.getTemperature();
Serial << "Chip Temperatur " << chipTemp << " °C " << endl; Serial << "Chip Temperatur " << chipTemp << " °C " << endl;
@ -1093,22 +1084,36 @@ void plantcontrol()
/* Publish water values, if available */ /* Publish water values, if available */
if (waterRawSensor.getCount() > 0) if (waterRawSensor.getCount() > 0)
{ {
float remaining = (waterLevelMax.get() - waterRawSensor.getAverage());
float actualDifference = waterLevelMax.get() - waterLevelMin.get();
float ratio = remaining/actualDifference;
sensorWater.setProperty("useable").send(String(actualDifference));
if (!isnan(remaining))
{
/* measuring the distance from top -> smaller value means more water: */
sensorWater.setProperty("remaining").send(String(ratio*100));
}
if (!isnan(waterRawSensor.getAverage())) if (!isnan(waterRawSensor.getAverage()))
{ {
sensorWater.setProperty("distance").send(String(waterRawSensor.getAverage())); /* measuring the distance from top -> smaller value means more water: */
long averageWater = waterRawSensor.getAverage();
if (averageWater < ESP_ADC_MAX) {
long percentage = (averageWater * averageWater);
percentage = percentage / 570000;
/* Add offset */
if (percentage > 0)
{
percentage += 4;
}
sensorWater.setProperty("remaining").send(String(percentage));
} else {
sensorWater.setProperty("remaining").send(String("100"));
}
sensorWater.setProperty("raw").send(String(waterRawSensor.getAverage()));
} }
} }
sensorLipo.setProperty("percent").send(String(100 * mBatteryVoltage / VOLT_MAX_BATT));
if ( ((int) (mBatteryVoltage * 100)) < ((int) (VOLT_MIN_BATT * 100)) )
{
sensorLipo.setProperty("percent").send("0");
}
else
{
sensorLipo.setProperty("percent").send(String(100 * (((mBatteryVoltage - VOLT_MIN_BATT) / (VOLT_MAX_BATT - VOLT_MIN_BATT)))));
}
sensorLipo.setProperty("volt").send(String(mBatteryVoltage)); sensorLipo.setProperty("volt").send(String(mBatteryVoltage));
sensorLipo.setProperty("current").send(String(battery.getCurrent())); sensorLipo.setProperty("current").send(String(battery.getCurrent()));
sensorLipo.setProperty("Ah").send(String(battery.getAh())); sensorLipo.setProperty("Ah").send(String(battery.getAh()));
@ -1128,7 +1133,7 @@ void plantcontrol()
Serial.flush(); Serial.flush();
} }
bool isLowLight = (mSolarVoltage <= SOLAR_CHARGE_MAX_VOLTAGE); bool isLowLight = (mSolarVoltage <= SOLAR_CHARGE_MIN_VOLTAGE);
#if defined(TIMED_LIGHT_PIN) #if defined(TIMED_LIGHT_PIN)
bool shouldLight = determineTimedLightState(isLowLight); bool shouldLight = determineTimedLightState(isLowLight);
@ -1145,25 +1150,25 @@ bool isLowLight = (mSolarVoltage <= SOLAR_CHARGE_MAX_VOLTAGE);
if (waterRawSensor.getCount() > 0) if (waterRawSensor.getCount() > 0)
{ {
//surface of water is still nearer the sensor than required to cover the pumps //surface of water is still nearer the sensor than required to cover the pumps
hasWater = waterRawSensor.getAverage() < waterLevelMin.get(); hasWater = waterRawSensor.getAverage() > WATER_LEVEL_MINIMUM;
if (waterRawSensor.getAverage() > waterLevelMax.get()) {
log(LOG_LEVEL_ERROR, LOG_PUMP_FULLTANK_MESSAGE, LOG_PUMP_FULLTANK_CODE);
hasWater = true;
}
} }
if (mBatteryVoltage >= VOLT_SENSORS_BATT)
{
// FIXME no water warning message // FIXME no water warning message
pumpToRun = determineNextPump(isLowLight); vmPumpToRun = determineNextPump(isLowLight);
}
// early aborts // early aborts
if (pumpToRun != -1) if (vmPumpToRun != -1)
{ {
if(isLiquid){ if(isLiquid){
if (hasWater) if (hasWater)
{ {
if (mDownloadMode) if (vmDownloadMode)
{ {
log(LOG_LEVEL_INFO, LOG_PUMP_AND_DOWNLOADMODE, LOG_PUMP_AND_DOWNLOADMODE_CODE); log(LOG_LEVEL_INFO, LOG_PUMP_AND_DOWNLOADMODE, LOG_PUMP_AND_DOWNLOADMODE_CODE);
pumpToRun = -1; vmPumpToRun = -1;
} else { } else {
/* Pump can be used :) */ /* Pump can be used :) */
} }
@ -1171,18 +1176,18 @@ bool isLowLight = (mSolarVoltage <= SOLAR_CHARGE_MAX_VOLTAGE);
else else
{ {
log(LOG_LEVEL_ERROR, LOG_PUMP_BUTNOTANK_MESSAGE, LOG_PUMP_BUTNOTANK_CODE); log(LOG_LEVEL_ERROR, LOG_PUMP_BUTNOTANK_MESSAGE, LOG_PUMP_BUTNOTANK_CODE);
pumpToRun = -1; vmPumpToRun = -1;
} }
} }
else else
{ {
log(LOG_LEVEL_ERROR, LOG_VERY_COLD_WATER, LOG_VERY_COLD_WATER_CODE); log(LOG_LEVEL_ERROR, LOG_VERY_COLD_WATER, LOG_VERY_COLD_WATER_CODE);
pumpToRun = -1; vmPumpToRun = -1;
} }
} }
// go directly to sleep, skipping the pump loop // go directly to sleep, skipping the pump loop
if (pumpToRun == -1) if (vmPumpToRun == -1)
{ {
espDeepSleep(); espDeepSleep();
} }